An improved approach of salting-out solvent-free microwave mediated rotary distillation for essential oil preparation from fresh leaves of magnolia (Oyama sieboldii)

•Salting-out solvent-free microwave rotary distillation to obtain essential oil.•MgCl2 was selected as a salting-out agent from a wide range of metal salts.•During the whole process, the material is in a rotating state and is heated evenly.•Essential oil was prepared from fresh leaves of Oyama siebo...

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Published inFood Chemistry: X Vol. 16; p. 100524
Main Authors Yang, Xinyu, Zhao, Ru, Wei, Mengxia, Gu, Huiyan, Li, Jialei, Yang, Lei, Liu, Tingting
Format Journal Article
LanguageEnglish
Published Netherlands Elsevier Ltd 30.12.2022
Elsevier
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Abstract •Salting-out solvent-free microwave rotary distillation to obtain essential oil.•MgCl2 was selected as a salting-out agent from a wide range of metal salts.•During the whole process, the material is in a rotating state and is heated evenly.•Essential oil was prepared from fresh leaves of Oyama sieboldii.•The main component of O. sieboldii essential oil were dehydrocostuslactone. An improved method denoted as salting out-solvent-free microwave rotary distillation (SOSFMRD) was successfully developed for the extraction of essential oils from fresh magnolia (Oyama sieboldii) leaves, in which we achieved the rotation of the reaction material by means of a rotating motor to subject the material to uniform microwave irradiation. Magnesium chloride was selected as the salting-out agent through a comparative study on the salting-out effects of different anions and cations of metal salts. The variables of SOSFMRD were systematically optimized. Under the obtained optimization conditions, the essential oil yield was 21.68 ± 1.02 mL/kgDW. Gas chromatography–mass spectrometry analysis showed that the main chemical constituent of O. sieboldii essential oil was dehydrocostuslactone, the content of which reached 30.23 ± 1.27 %. Compared with the other conventional methods, this method has a high yield and low energy consumption, which can effectively reduce impact on the environment.
AbstractList An improved method denoted as salting out-solvent-free microwave rotary distillation (SOSFMRD) was successfully developed for the extraction of essential oils from fresh magnolia ( ) leaves, in which we achieved the rotation of the reaction material by means of a rotating motor to subject the material to uniform microwave irradiation. Magnesium chloride was selected as the salting-out agent through a comparative study on the salting-out effects of different anions and cations of metal salts. The variables of SOSFMRD were systematically optimized. Under the obtained optimization conditions, the essential oil yield was 21.68 ± 1.02 mL/kgDW. Gas chromatography-mass spectrometry analysis showed that the main chemical constituent of essential oil was dehydrocostuslactone, the content of which reached 30.23 ± 1.27 %. Compared with the other conventional methods, this method has a high yield and low energy consumption, which can effectively reduce impact on the environment.
• Salting-out solvent-free microwave rotary distillation to obtain essential oil. • MgCl 2 was selected as a salting-out agent from a wide range of metal salts. • During the whole process, the material is in a rotating state and is heated evenly. • Essential oil was prepared from fresh leaves of Oyama sieboldii. • The main component of O. sieboldii essential oil were dehydrocostuslactone. An improved method denoted as salting out-solvent-free microwave rotary distillation (SOSFMRD) was successfully developed for the extraction of essential oils from fresh magnolia ( Oyama sieboldii ) leaves, in which we achieved the rotation of the reaction material by means of a rotating motor to subject the material to uniform microwave irradiation. Magnesium chloride was selected as the salting-out agent through a comparative study on the salting-out effects of different anions and cations of metal salts. The variables of SOSFMRD were systematically optimized. Under the obtained optimization conditions, the essential oil yield was 21.68 ± 1.02 mL/kgDW. Gas chromatography–mass spectrometry analysis showed that the main chemical constituent of O. sieboldii essential oil was dehydrocostuslactone, the content of which reached 30.23 ± 1.27 %. Compared with the other conventional methods, this method has a high yield and low energy consumption, which can effectively reduce impact on the environment.
An improved method denoted as salting out-solvent-free microwave rotary distillation (SOSFMRD) was successfully developed for the extraction of essential oils from fresh magnolia (Oyama sieboldii) leaves, in which we achieved the rotation of the reaction material by means of a rotating motor to subject the material to uniform microwave irradiation. Magnesium chloride was selected as the salting-out agent through a comparative study on the salting-out effects of different anions and cations of metal salts. The variables of SOSFMRD were systematically optimized. Under the obtained optimization conditions, the essential oil yield was 21.68 ± 1.02 mL/kgDW. Gas chromatography-mass spectrometry analysis showed that the main chemical constituent of O. sieboldii essential oil was dehydrocostuslactone, the content of which reached 30.23 ± 1.27 %. Compared with the other conventional methods, this method has a high yield and low energy consumption, which can effectively reduce impact on the environment.An improved method denoted as salting out-solvent-free microwave rotary distillation (SOSFMRD) was successfully developed for the extraction of essential oils from fresh magnolia (Oyama sieboldii) leaves, in which we achieved the rotation of the reaction material by means of a rotating motor to subject the material to uniform microwave irradiation. Magnesium chloride was selected as the salting-out agent through a comparative study on the salting-out effects of different anions and cations of metal salts. The variables of SOSFMRD were systematically optimized. Under the obtained optimization conditions, the essential oil yield was 21.68 ± 1.02 mL/kgDW. Gas chromatography-mass spectrometry analysis showed that the main chemical constituent of O. sieboldii essential oil was dehydrocostuslactone, the content of which reached 30.23 ± 1.27 %. Compared with the other conventional methods, this method has a high yield and low energy consumption, which can effectively reduce impact on the environment.
An improved method denoted as salting out-solvent-free microwave rotary distillation (SOSFMRD) was successfully developed for the extraction of essential oils from fresh magnolia (Oyama sieboldii) leaves, in which we achieved the rotation of the reaction material by means of a rotating motor to subject the material to uniform microwave irradiation. Magnesium chloride was selected as the salting-out agent through a comparative study on the salting-out effects of different anions and cations of metal salts. The variables of SOSFMRD were systematically optimized. Under the obtained optimization conditions, the essential oil yield was 21.68 ± 1.02 mL/kgDW. Gas chromatography–mass spectrometry analysis showed that the main chemical constituent of O. sieboldii essential oil was dehydrocostuslactone, the content of which reached 30.23 ± 1.27 %. Compared with the other conventional methods, this method has a high yield and low energy consumption, which can effectively reduce impact on the environment.
•Salting-out solvent-free microwave rotary distillation to obtain essential oil.•MgCl2 was selected as a salting-out agent from a wide range of metal salts.•During the whole process, the material is in a rotating state and is heated evenly.•Essential oil was prepared from fresh leaves of Oyama sieboldii.•The main component of O. sieboldii essential oil were dehydrocostuslactone. An improved method denoted as salting out-solvent-free microwave rotary distillation (SOSFMRD) was successfully developed for the extraction of essential oils from fresh magnolia (Oyama sieboldii) leaves, in which we achieved the rotation of the reaction material by means of a rotating motor to subject the material to uniform microwave irradiation. Magnesium chloride was selected as the salting-out agent through a comparative study on the salting-out effects of different anions and cations of metal salts. The variables of SOSFMRD were systematically optimized. Under the obtained optimization conditions, the essential oil yield was 21.68 ± 1.02 mL/kgDW. Gas chromatography–mass spectrometry analysis showed that the main chemical constituent of O. sieboldii essential oil was dehydrocostuslactone, the content of which reached 30.23 ± 1.27 %. Compared with the other conventional methods, this method has a high yield and low energy consumption, which can effectively reduce impact on the environment.
ArticleNumber 100524
Author Gu, Huiyan
Yang, Lei
Liu, Tingting
Yang, Xinyu
Wei, Mengxia
Li, Jialei
Zhao, Ru
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Keywords Magnesium chloride
Fresh leaves
Essential oil
Salting-out solvent-free microwave mediated rotary distillation (SOSFMRD)
Oyama sieboldii
Language English
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Snippet •Salting-out solvent-free microwave rotary distillation to obtain essential oil.•MgCl2 was selected as a salting-out agent from a wide range of metal...
An improved method denoted as salting out-solvent-free microwave rotary distillation (SOSFMRD) was successfully developed for the extraction of essential oils...
• Salting-out solvent-free microwave rotary distillation to obtain essential oil. • MgCl 2 was selected as a salting-out agent from a wide range of metal...
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SubjectTerms Essential oil
Fresh leaves
Magnesium chloride
Oyama sieboldii
Salting-out solvent-free microwave mediated rotary distillation (SOSFMRD)
Title An improved approach of salting-out solvent-free microwave mediated rotary distillation for essential oil preparation from fresh leaves of magnolia (Oyama sieboldii)
URI https://dx.doi.org/10.1016/j.fochx.2022.100524
https://www.ncbi.nlm.nih.gov/pubmed/36519096
https://www.proquest.com/docview/2754858400
https://pubmed.ncbi.nlm.nih.gov/PMC9743287
https://doaj.org/article/44882a2b36a94a6c959eb9263b052670
Volume 16
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